A floating offshore platform will be developed and tested in an offshore trial at Ireland´s west coast. This demonstration is supposed to show that the structure is survivable in a deep-water environment and also cost-effective.
Interreg North West Europe, 10/2018 – 12/2022
The AVIMo research project focuses on the relationships between the movement of vessels and delays of work activities in offshore wind farms. The overall goal of the project is to combine weather and sea state data with specifically modeled work vessel movements in a logistical planning demonstrator.
BMWK, 12/2018 - 12/2022
IWES researchers will develop and test production methods to reduce the production time for rotor blades. To this end, the team is working to parallelize production steps. In addition, a 3D laser measurement system, which is suitable for assuring the quality of blade production, will be tested for the first time.
BMWK, 10/2018 – 12/2022
The Fraunhofer IWES is developing an extended methodology to determine the wind potential of offshore wind farm clusters based on the short-term measurement data from a floating lidar system.
BMWK, 06/2020 – 11/2022
Within the project, we will extend a reference architecture for digital twins in such a way that it can represent modularity and take into account modifications incorporated into the system. The developed procedures are applied by estimating the residual service life of components and put to the test on the Adwen AD 8-180 research turbine.
VGB-Forschungsstiftung, 07/2021 - 06/2022
The project partners are developing and testing a digital, automated maintenance communication system that makes it easier to compare and evaluate experiences in the operation of wind farms.
BMWK, 08/2020 – 01/2023
Fraunhofer IWES is developing control strategies for the load management of rolling bearings in order to prevent damage to bearings through optimized operating situations.
BMWK, 02/2021 – 05/2023
The project partners are working to derive new wind field models that will improve the design of large and high wind turbines and enable the revision of the current standard.
BMWK, 02/2021 – 01/2024
With the aid of a data trust model, the project partners are implementing the FAIR principle for research data from wind farm operation and, in doing so, breaking down barriers to cross-company data exchange.
BMBF, 01/2022 - 12/2023
The project partners are investigating the possible use of individual pitch control (IPC) in order to identify various optimization options for wind turbines. The goal is to reduce fatigue loads and sound emissions using IPC and, at the same time, have a positive impact on power generation and optimize the wind field in the wake of wind turbines.
BMWK, 01/2020 - 12/2022
As part of the “Future rotor blade concept” research project, scientists at Fraunhofer IWES are developing new methods to test rotor blade prototypes that provide significantly more realistic data and allow a load-appropriate design to be produced. At the conclusion of the first phase of the research project, which will take five years in total, the infrastructure will be operational and the test methods developed to significantly reduce energy production costs.
BMWK, EFRE (Land Bremen) 12/2015 - 12/2022
The aim of the project is to ensure that experimental testing of very long rotor blades remains economically viable for manufacturers. New testing procedures for the investigation of segments will offer a better understanding of critical areas and thus increase the informative value of the tests considerably.
BMWK, EFRE (Land Bremen), BMBF 01/2019 - 12/2022
This model project comprises the development of a hydrogen production unit and a value-added chain in Bremerhaven. The project partners ttz Bremerhaven, Hochschule Bremerhaven and Fraunhofer IWES will test applications in the logistics and transport sector as well as the food industry.
EFRE, 03/2020 - 09/2023
The project partners are working on the development of the demonstrator of a measuring system capable of investigating and evaluating the damage process of a grouted joint on offshore wind turbines.
BMWK, 03/2020 - 02/2023
Innovative materials - hybrid materials and nano-modified material systems - will be developed and tested. The target is to achieve greater insights into the effect and damage mechanisms of these material systems. Especially the challenges associated with the processing on an industrial scale will be examined.
BMWK, 03/2019 - 12/2022
In this project a coherent data and model space is created for the co-simulation of usage scenarios for a future hydrogen economy. To facilitate this, key components of the hydrogen value chain are modelled.
BMBF, 08/2021 - 12/2022
Cost-efficient huge capacities electrolyzers are required to satisfy Germany’s green hydrogen demand. Although there are already high-performance electrolyzers available on the market today, they are still largely built by hand. The H2Giga flagship project will therefore support the serial production of electrolyzers.
BMBF, 04/2021 - 03/2025
The best conditions for generating renewable wind energy can be found at sea. The direct production of green hydrogen from wind energy in offshore turbines without a grid connection can lower the costs considerably compared with onshore generation. The H2Mare flagship project will thus investigate the offshore generation of green hydrogen and other power-to-X products.
With the aim of rendering the design of large rotor blades as cost-effective as possible, Fraunhofer IWES will investigate in the HighRe project common design procedures and assess their validity. This involves measurements on one of the world’s largest wind turbines.
BMWK, 06/2019 - 02/2023
Together with the project partners Institute for Geotechnical Engineering (IGtH) and Test Center Support Structures in Hannover (TTH) (both affiliated with the Leibniz University Hannover), the IWES is investigating the applicability of approaches to describe the soil-structure interaction of monopile foundation under cyclic loading by means of large tests.
BMWK, 12/2018 - 11/2022
The project partners are developing an intelligent control strategy for wind turbines which is able to guarantee the effective protection of blade bearings and, at the same, keep yield losses and additional loads on turbines to a minimum.
BMWK, 06/2019 - 06/2023
The project partners Fraunhofer IWES and GERICS are working to determine the impact of climate change on wind potential in the next 50 years in order to derive specific recommendations for action so as to take these effects into account in wind farm yield assessments.
BMWK, 02/2021 - 01/2024
The project partners are developing an economically feasible disposal strategy allowing as high a recycling quota as possible and thereby enabling a sustainable circular economy.
BMBF, 10/2021 - 06/2022
Within the project, a new hybrid material based on epoxy foam will be examined and qualified. Especially the damage process at positions where two materials are connected will gain attention. The development of testing and monitoring methods that are attuned precisely to the material properties complement the project.
BMWK / PtJ, 01/2019 – 12/2022
The Fraunhofer IWES is developing and operating a mobile grid simulator with an output of 80 megavolt-amperes (MVA) to measure the electrical properties of wind turbines and to demonstrate current and future grid system services.
BMWK, 01/2020 - 03/2023
The goal of the Northern German Regulatory Sandbox (Norddeutsches Reallabor NRL) is to test the transformation path for an integrated energy system that will succeed in reducing CO2 emissions in the North by 75 percent by 2035.
Within this project, a digital, continually growing data and knowledge collection of high interest for SME´s will be established. The competence platform assists companies with testing, developing and verifying their products. Technical, economical and ecological data is used to enable an accurately fitting characterization for a certain purpose.
Fraunhofer IWES is developing novel material models for rotor blades that, with optimized blade mass, ensure reliable operation even under extreme temperature conditions.
BMWK, 04/2020 - 03/2024
The project partners are developing effective solutions for increasing the reliability and robustness of inverters in photovoltaic systems and frequency converters in wind turbines.
Fraunhofer-Gesellschaft in the scope of the internal program PREPARE, 03/2020 - 02/2023
The project partners are developing and trying out a test facility for the frequency converters of multi-megawatt wind turbines with the aim of being able to validate and optimize the impact they have on grid stability.
BMWK, 12/2019 - 07/2023
The project partners are optimizing the multi-bucket concept as an environmentally friendly and cost-effective alternative for offshore wind turbine foundations.
BMWK, 09/2020 - 08/2023
The RAVE research initiative has accompanied the first German offshore wind park for research purpose right from the start and linked up the projects associated with the 12 offshore turbines. The main goals of the new research project are reduction of the levelized cost of energy and riskassessment. Within "OpenRAVE" Fraunhofer IWES will continue to coordinate the research activities in the years to come and along with the public relations work.
BMWK, 02/2020 – 01/2025
The project ReaLCoE aims at unleash the full potential of offshore wind energy to be in direct competition with conventional energy sources in electricity markets worldwide. Over the course of the project, the consortium will develop, install, demonstrate, operate and test a technology platform for the first prototype of a double-digit rated capacity turbine in a realistic offshore environment.
EC Horizon 2020, 05/2018 – 01/2026
The influencing factors that trigger defects of power electronic components will be systematically assessed in order to develop efficient protection. On the basis of experimental investigations, damage models and models for calculation of the remaining service life are generated. At the same time, comprehensive failure and operating data is evaluated and field measurements are carried out.
BMWK, 12/2018 - 11/2022
Denmark's Tekniske Universitet and Fraunhofer IWES will be researching how the reliability of rotor blades can be improved in a collaboration including other alliance partners from across Denmark and Germany.
BMWK, 11/2018 – 10/2022
The project partners are developing a technically optimized, resonance-based test method to investigate the soil-structure interactions of offshore foundation structures and allow fatigue testing of large components.
BMWK, 01/2019 – 11/2022
The aim of the joint project is the development and testing of a novel reversible electrolysis technology for efficient production of hydrogen from renewable energies and its reconversion into electricity.
BMBF, 08/2019 - 09/2022
Fraunhofer IWES is currently developing a cost-effective monitoring method for the recording of time-varying subsoil parameters in the pile area of offshore wind turbines using ultrahigh-resolution 4D seismics.
BMWK, 06/2021 - 05/2024
The project partners are investigating the linking of lightweight construction principles and the digitalized production of offshore wind turbines with the aim of saving resources and reducing CO2 emissions.
BMWK, 05/2021 - 04/2024
The project partners are developing operational management and maintenance strategies for offshore wind farms that are optimized for the fluctuating power market prices and making a corresponding evaluation tool available.
BMWK, 04/2019 - 05/2023
Improved Calculation Methods for Assessing Wind Farm Sites – “SUnDAY”. The project partners are using computational simulations in order to determine the scale and relevance of uncertainty factors when calculating wind farm sites.
BMWK, 11/2019 - 10/2022
Fraunhofer IWES is developing and operating a test field for state-of-the-art wind turbine technology in Bremerhaven which will be connected to the existing large-test rigs at the IWES.
BMWK, 12/2016 - 09/2022
The Fraunhofer IWES is developing a virtual nacelle test bench which will facilitate improved and more cost-efficient test methods for wind turbine nacelles on the full-size test bench.
BMWK, 06/2020 - 05/2023
Fraunhofer IWES is developing a next-generation floating lidar system (FLS) which satisfies industry requirements in terms of reliability and practicability.
BMWK, 02/2021 - 01/2024
The project partners are developing a virtual wind farm site assistant which will be able to optimize operational management and maintenance using early fault detection methods on the basis of high-resolution data.
BMWK, PtJ 12/2019 - 11/2022
The project partners are examining the impact that offshore wind farms have on each other. Meteorological data are being collected using various measurement methods and, on the basis of this, models for future expansion scenarios will be developed.
BMWK 11/2019 - 04/2023